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Check this educational video that explains the main research area
invideo-ai-1080 Next-Gen Human Models_ Organoids & Organ 2025-04-25.mp4My research focuses on the development of advanced in vitro models using human iPS cells for regenerative medicine applications. These models aim to recapitulate human organ physiology and inter-organ communication, which is essential for understanding disease mechanisms and improving drug testing accuracy.
My research focuses on the development of advanced in vitro models using human iPS cells for regenerative medicine applications. These models aim to recapitulate human organ physiology and inter-organ communication, which is essential for understanding disease mechanisms and improving drug testing accuracy.
I am particularly interested in the development of multi-lineage organoids and their integration with microfluidic devices to create functional organs-on-a-chip. These models will serve as platforms for drug discovery, toxicity testing, and disease modeling.
I am particularly interested in the development of multi-lineage organoids and their integration with microfluidic devices to create functional organs-on-a-chip. These models will serve as platforms for drug discovery, toxicity testing, and disease modeling.
Illustration by Izumi Mindy Takamiya (CC BY 4.0) KYOTO UNIVERSITY
Cornea-on-a-Chip for Ophthalmic Drug Testing:
Cornea-on-a-Chip for Ophthalmic Drug Testing:
We have developed a microfluidic device for the human cornea, which is being used for testing ophthalmic drug formulations and studying corneal diseases.
We have developed a microfluidic device for the human cornea, which is being used for testing ophthalmic drug formulations and studying corneal diseases.
media-2.mp43D bioprinter skeltal muscles cells
Skeletal Muscle-on-a-Chip for agel-related disease modeling:
Skeletal Muscle-on-a-Chip for agel-related disease modeling:
This project aims to create a muscle tissue using 3D bioprinting and microfluidic devices to simulate age-related muscle degeneration. This platform will allow us to study diseases such as sarcopenia and test potential therapeutic compounds.
This project aims to create a muscle tissue using 3D bioprinting and microfluidic devices to simulate age-related muscle degeneration. This platform will allow us to study diseases such as sarcopenia and test potential therapeutic compounds.
Multi-Lineage Organoids for Drug Screening:
Multi-Lineage Organoids for Drug Screening:
We are developing multi-lineage human iPSC-derived organoids that integrate retinal, neural, and muscle cells. These models will be used to investigate disease mechanisms and assess drug efficacy in a more physiologically relevant context.
We are developing multi-lineage human iPSC-derived organoids that integrate retinal, neural, and muscle cells. These models will be used to investigate disease mechanisms and assess drug efficacy in a more physiologically relevant context.
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